The decoration of a copper cluster on the anatase phase of a (101)-TiO2 surface to increase the reduction of CO2 has gained significant interest and potential to trigger sustainable solar-fuel-based economy. In the present work, we studied a heterogeneous surface for the reduction of CO2, which can produce various organic compounds such as formic acid, formaldehyde, methanol, ethanol, and methane. The density functional theory calculations were employed to study the formation of formaldehyde and methanol from CO(2)via hydrogenation by H-2 on a Cu catalyst. The copper cluster is a unique catalyst for charge separation and conversion into important organic compounds. Theoretical investigations suggest that these organic compounds can be used ...
In this work, the reaction mechanism for the conversion of CO2 and H2 to methanol has been researche...
Ethanol synthesis from CH4 and syngas on a Cu-Co/TiO2 catalyst is studied using experiments, density...
The reaction mechanism of the CH3OH synthesis by the hydrogenation of CO2 on Cu catalysts is unclear...
The decoration of a copper cluster on the anatase phase of a (101)-TiO2 surface to increase the redu...
Density functional methods are applied to explore the reaction mechanism for CO₂ hydrogenation to me...
Supported metal catalysts have shown to be efficient for CO 2 conversion due to their multifunctiona...
Periodic, self-consistent, density functional theory calculations with corrections via a Hubbard U p...
AbstractPeriodic, self-consistent, density functional theory calculations with corrections via a Hub...
With rising emission of CO2 affecting human life, photocatalytic reduction of CO2 attracts substanti...
We studied the direct conversion of CO2 to HCOOH through hydrogenation reaction without the presence...
With rising emission of CO 2 affecting human life, photocatalytic reduction of CO 2 attracts substan...
Conversion of greenhouse gases to more valuable chemicals is important from both the environmental a...
Formic acid production from CO2 allows the reduction of carbon dioxide emissions while synthesizing ...
Formic acid production from CO2 allows the reduction of carbon dioxide emissions while synthesizing ...
Excessive carbon dioxide (CO2) emissions by combustion of fossil fuels are linked to global warming ...
In this work, the reaction mechanism for the conversion of CO2 and H2 to methanol has been researche...
Ethanol synthesis from CH4 and syngas on a Cu-Co/TiO2 catalyst is studied using experiments, density...
The reaction mechanism of the CH3OH synthesis by the hydrogenation of CO2 on Cu catalysts is unclear...
The decoration of a copper cluster on the anatase phase of a (101)-TiO2 surface to increase the redu...
Density functional methods are applied to explore the reaction mechanism for CO₂ hydrogenation to me...
Supported metal catalysts have shown to be efficient for CO 2 conversion due to their multifunctiona...
Periodic, self-consistent, density functional theory calculations with corrections via a Hubbard U p...
AbstractPeriodic, self-consistent, density functional theory calculations with corrections via a Hub...
With rising emission of CO2 affecting human life, photocatalytic reduction of CO2 attracts substanti...
We studied the direct conversion of CO2 to HCOOH through hydrogenation reaction without the presence...
With rising emission of CO 2 affecting human life, photocatalytic reduction of CO 2 attracts substan...
Conversion of greenhouse gases to more valuable chemicals is important from both the environmental a...
Formic acid production from CO2 allows the reduction of carbon dioxide emissions while synthesizing ...
Formic acid production from CO2 allows the reduction of carbon dioxide emissions while synthesizing ...
Excessive carbon dioxide (CO2) emissions by combustion of fossil fuels are linked to global warming ...
In this work, the reaction mechanism for the conversion of CO2 and H2 to methanol has been researche...
Ethanol synthesis from CH4 and syngas on a Cu-Co/TiO2 catalyst is studied using experiments, density...
The reaction mechanism of the CH3OH synthesis by the hydrogenation of CO2 on Cu catalysts is unclear...